电容式接近传感器电路原理图

N. Pavliuk, E. Cherskikh, N. Pshchelko, A. Shabanova
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引用次数: 4

摘要

本文的目的在于硬件的开发,以保证拟人机器人的人工触觉。通过为此目的进行的分析,发现大多数电容传感器,安装在拟人机器人的抓手上,以及其他类型的机器人上,都是根据微机电系统(MEMS)技术实现的。使用相关工作中讨论的解决方案进行障碍物检测和表面类型识别,比使用我们开发的电容式传感器需要更近的距离。我们给出了传感器的电路原理图实现,并绘制了由传感器跟踪并由不同材料制成的各种物体的距离输出电压的图形依赖关系。我们给出了以水和含水盐溶液为例得到的实验结果。我们发现,在使用固体材料时,输出电压有相似的值,但在水或含水盐溶液的情况下,各自的值大不相同。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Circuit Schematics of a Capacitive Proximity Sensor
The purpose of this paper consists in development of hardware, ensuring artificial tactile sensing of an anthropomorphic robot. Through analysis, performed to that end, it was discovered, that the majority of capacitive sensors, installed as well on the grippers of the anthropomorphic robots, as on robots of other types are implemented in terms of microelectromechamical systems (MEMS) technology. Obstacle detection and surface type recognition using the solutions, discussed in the related work, requires much closer proximity, than with the capacitive sensor, developed by us. We present a circuit schematics implementation of the sensor and charted graphical dependencies of the output voltage from distance for various objects, tracked by the sensor and made of different materials. We present experiment outcomes, obtained on examples of water and aqueous salt solution. We discovered, that the output voltage when using solid materials has similar values, but the respective values were quite different in the case of water or aqueous salt solution.
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